SO-13700/FT06、SO-13710/FT06、SO-13700/FT17、SO-13710/FT17 Combined Self-operated Flow and Temperature Regulator
An energy-saving multi-combination control valve without external energy sources, used as a flow and temperature control device for non-corrosive liquids, gases and steam and other media with a maximum temperature of 200℃.
SO-133001/ZA3、SO-133101/ZA3 Combined Self-operated Pressure and Differential Pressure Regulator
An energy-saving multi-combination control valve without external energy sources, used for pressure and differential pressure control of non-corrosive liquids, gases and steam and other media with a maximum temperature of 350℃.
SO-137001/ZA3、SO-137101/ZA3 Combined Self-operated Flow and Pressure Regulator
An energy-saving multi-combination control valve without external energy sources, used for controlling the flow and pressure of non-corrosive water and other liquid media with a maximum temperature of 200℃
An energy-saving multi-combination control valve without external energy sources, used for flow and temperature control devices for non-corrosive liquids with a maximum temperature of 350℃, as well as pressure and differential pressure control devices, and flow and pressure control devices for liquids, gases and steam.
Does not require any external driving energy
Has pressure balancing function and high sensitivity
Does not require maintenance, with reliable performance
Low noise, smooth operation
Adopts modular design, with high levels of standardization, seriesization and generalization
Can be combined into various types of self-operated regulating valves through components
Material: WCB、CF8、CF8M
Nominal Size: DN15~250mm
Pressure Rate: PN1.6~4.0MPa
Voltage Regulating Range：0.02MPa,0.05MPa、 0.3~1.2MPa、0.1~0.6MPa、0.015~0.15MPa、 0.05~0.3MPa、0.01~0.07MPa、0.025~0.035MPa、0.8~1.6MPa
Temperature Range: ≤350℃
Operator: Self-pressurization type
Application range: It is applicable to the automatic control systems in industrial production processes such as water supply, petrochemical, heating and cooling, energy, papermaking, food, and steel, where there is no (or cannot be used) driving energy. It is particularly suitable for automatic control system devices in gas production and transportation or gas supply and transportation.
RAYS' rising stem ball valve is designed to operate without friction between the ball and the seat during opening and to achieve zero leakage when closed. This makes it well-suited for demanding conditions. The valve is made entirely of metal and is fire-resistant, capable of functioning in extreme temperatures ranging from -196°C (320.8°F) to 538°C (1000.4°F). It can handle media with particulates like sand and short fibers, and meets NACE standards for corrosion resistance, ensuring it can resist sulfide stress cracking in harsh environments. The valve also features a self-cleaning mechanism. When the ball is tilted away from the seat, the fluid flows 360° around the ball's sealing surface, effectively removing any debris. This prevents damage from high-speed fluid flows and keeps the sealing area clean. The rising stem ball valve is ideal for various applications including exhaust, fluid transfer, pipeline isolation, bypass, product segmentation, and emergency shutdowns, particularly where high switching frequencies and zero leakage in high temperatures are required.
The Cryogenic High-Performance Butterfly Valve adopts an offset valve stem and eccentric butterfly plate design. When opening and in the middle position, the valve seat and the butterfly plate do not contact each other, which reduces the friction on the valve seat while reducing the torque, and improves the durability of the valve. It is a high-performance regulating and cutting valve. The valve is designed to handle various media that are most difficult to handle in today's industrial environment, including liquid oxygen, liquid natural gas and other cryogenic liquids.
Oxygen Globe Valve are often used in physical and chemical experiments with gases such as oxygen, nitrogen, hydrogen, argon, etc. These gases are usually stored in dedicated high-pressure gases. When in use, the gas pressure is reduced to the required range for the experiment through a pressure reducing valve, and then finely adjusted through other control valves to input the gas into the system. The oxygen shut-off valve is a forced sealing valve, so when the valve is closed, pressure must be applied to the valve disc to force the sealing surface not to leak.